Reconfigurable Photonic Metamaterials
Reconfigurable photonic metamaterials enable dynamic optical nanocavities with tunable light–matter interactions, controllable nonlinearity, quantum interconnects, and tailored lattice–defect coupling. These advances open new possibilities for nonlinear optics, quantum information, and adaptive photonic technologies.
Research in reconfigurable photonic metamaterials focuses on designing and realizing dynamic optical nanocavities with tunable properties, enabling precise control over light–matter interactions at the nanoscale. By engineering controllable nonlinear optical responses and quantum interconnects, these metamaterials open pathways for arbitrary control of photon properties. The platform also allows exploration of tailored lattice–defect interactions, providing new opportunities to study and harness defect-mediated phenomena. Together, these advances pave the way for next-generation technologies in nonlinear optics, quantum information, and adaptive photonics.
Published Works
Twisted Bilayer Photonic Crystals
A Van der Waals Moiré Bilayer Photonic Crystal Cavity
An adaptive moiré sensor for spectro-polarimetric hyperimaging
Control of Chirality and Directionality of Nonlinear Metasurface Light Source via Moiré Engineering
Free-Space Beam Steering with Twisted Bilayer Photonic Crystal Slabs
Three-Dimensional Reconfigurable Optical Singularities in Bilayer Photonic Crystals
GaN Magic Angle Laser in a Merged Moiré Photonic Crystal
On-chip light trapping in bilayer moiré photonic crystal slabs
Modeling the optical properties of twisted bilayer photonic crystals
Photonic Crystals:
Ultra-low-loss on-chip zero-index materials
Photonic flatband resonances for free-electron radiation
Extended many-body superradiance in diamond epsilon near-zero metamaterials